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Nozzles

A nozzle will help the material to get pumped in the mold there are different types such as shut-off nozzle, etc. Both open nozzles and needle shut-off nozzles can be used. Open [Pg.73]

Nozzle designs with positive shut-off devices have been successfully used. The gas must be free to escape through the nozzle. Material freeze off in the nozzle or malfunction of the positive shut-off device could develop pressure to cause blow-back of the material through the feed zone and hopper or create hazardous conditions. In such cases, conventional free flow and reverse taper type fitted with a heater band for temperature control of the nozzle prevents nozzle drool or freeze off of the material and is used and in nylon processing. Sprue cutter is associated with the nozzle to help the process. A nozzle forms a seal between the injection system and the mold. [Pg.74]


In order to maintain high energy efficiency and ensure a long service life of the materials of construction in the combustion chamber, turbine and jet nozzle, a clean burning flame must be obtained that minimizes the heat exchange by radiation and limits the formation of carbon deposits. These qualities are determined by two procedures that determine respectively the smoke point and the luminometer index. [Pg.226]

The density of heavy fuels is greater than 0.920 kg/1 at 15°C. The marine diesel consumers focus close attention on the fuel density because of having to centrifuge water out of the fuel. Beyond 0.991 kg/1, the density difference between the two phases —aqueous and hydrocarbon— becomes too small for correct operation of conventional centrifuges technical improvements are possible but costly. In extreme cases of fuels being too heavy, it is possible to rely on water-fuel emulsions, which can have some advantages of better atomization in the injection nozzle and a reduction of pollutant emissions such as smoke and nitrogen oxides. [Pg.236]

To lessen the risk of pumping sludges or slurries into a unit, the practice is to leave a safety margin of 50 cm (heel) below the outlet nozzle or install a strainer on the pump suction line. The deposits accumulate with time and the tanks are periodically emptied and cleaned. [Pg.327]

If a shallow kick off in soft formation is required (e.g. to steer the borehole away underneath platforms) a technique using jet bit deflection or badgering is employed (Fig. 3.16). A rock bit is fitted with two small and one large jet. With the bit on bottom and oriented in the desired direction the string is kept stationary and mud is pumped through the nozzles. This causes asymmetric erosion of the borehole beneath the larger jet. Once sufficient hole has been jetted, the drill bit will be rotated again and the new course followed. This process will be repeated until the planned deviation is reached. [Pg.46]

The jet pump relies on the same hydraulic power being delivered sub-surface as to the hydraulic reciprocating pump, but there the similarity ends. The high-pressure power fluid is accelerated through a nozzle, after whioh it is mixed with the well stream. The velocity of the well stream is thereby increased and this acquired kinetic energy is converted to pressure in an expander. The pressure is then sufficient to deliver the fluids to surface. The jet pump has no moving parts and can be made very compact. [Pg.231]

RCT are designed to successfully solve a whole number of tasks in nuclear power when testing fuel elements, in aviation and space industry when testing construction materials, nozzles and engine units, turbine blades and parts, in electromechanical industry-cables switching elements, electric motors in defense sphere- charges, equipment in prospecting for research of rock distribution and detection of precious stones in samples. [Pg.598]

Using of a source Cs nozzles with the contents of tungsten up to 75 % were investigated. The distributions received for a product without impregnation and after impregnation by tungsten are shown on fig. 1. [Pg.600]

Results of determining a density of a composite material nozzles of the rocket engine before and after impregnation by metal. [Pg.600]

MP-suspension by automated ASTM-bulb Magnetization current by Hall-Sensor Magnetization time UV-Light intensity All Liquids (fluorescence, contamination) Process times and temperatures Function of spraying nozzles, Level of tanks Flow rates (e.g. washing, water recycling) UV-Light intensity... [Pg.629]

Water pressure at spraying nozzles and flow-rates. [Pg.630]

For produetion eontrol of small diameter nozzle welds a magnetic wheel scarmer has been build (Figure 4). One standard motor module drives the magnetic wheel and one standard motor module drives the Y-module slide. The two motors are connected to the Master Module. The scanner is controlled from a FORCE Institute PSP-3 ultrasonic acquisition unit with build-in scarmer controller. [Pg.803]

Figure 4 AWS-8D nozzle scarmer for small diameter nozzles (025-2OOmm)... Figure 4 AWS-8D nozzle scarmer for small diameter nozzles (025-2OOmm)...
Figure 6 AIR-1 articulated robot arm with six degrees of freedom Robot performs ultrasonic inspection of a large nozzle weld on a BWR main circulation pipe. Figure 6 AIR-1 articulated robot arm with six degrees of freedom Robot performs ultrasonic inspection of a large nozzle weld on a BWR main circulation pipe.
The 3D-inspection system can be applied to many complex inspection tasks where ordinary XY scanners can not perform the job, e.g. nozzle welding inspections and nozzle inner radius inspection in nuclear and petrochemical environments. [Pg.873]

The system has recently been used with success for inspection of 11 inclined nozzle welds during the R1 SPRINT project at Vattenfall Ringhals, Sweden during the summer 1997. At the moment a full system and personal qualification is prepared for inspection of the pressurizer spray nozzle weld at Vattenfall Ringhals, block 2 at May, 1998. [Pg.873]

Figure 2 AIR-1 robot mounted on incbned inspection nozzle... Figure 2 AIR-1 robot mounted on incbned inspection nozzle...
LORUS is also used for inspection of piping that has been on supports or sleepers for some time, to see whether corrosion has developed at the contact points. But the technique can also be used for corrosion detection under insulation, inspection of pipelines at dike and road crossings, nozzle reinforcement pads or craek detection in suspension systems for railway cars. [Pg.950]

The tracer solution is made from oil soluble bromobenzene with the radioactive isotope Br-82. The tracer solution is injected through a thin nozzle inserted into the pipeline through the valve previously connected to the injection instrumentation. The injection device provides a very sharp beginning and termination of the fraction of labelled oil. [Pg.1060]

Other examples of government and military applications of laser-based profilometry include the evaluation of rocket thruster nozzles to locate and measure flame erosion remote inspection of hypervelocity test track and the measurement of sludge deposits on tube internal surfaces. [Pg.1066]

For times below about 5 msec a correction must be made to allow for the fact that the surface velocity of the liquid in the nozzle is zero and takes several wavelengths to increase to the jet velocity after emerging from the nozzle. Correction factors have been tabulated [107, 108] see also Ref. 109. [Pg.34]

The oscillating jet method is not suitable for the study of liquid-air interfaces whose ages are in the range of tenths of a second, and an alternative method is based on the dependence of the shape of a falling column of liquid on its surface tension. Since the hydrostatic head, and hence the linear velocity, increases with h, the distance away from the nozzle, the cross-sectional area of the column must correspondingly decrease as a material balance requirement. The effect of surface tension is to oppose this shrinkage in cross section. The method is discussed in Refs. 110 and 111. A related method makes use of a falling sheet of liquid [112]. [Pg.34]

Several instniments have been developed for measuring kinetics at temperatures below that of liquid nitrogen [81]. Liquid helium cooled drift tubes and ion traps have been employed, but this apparatus is of limited use since most gases freeze at temperatures below about 80 K. Molecules can be maintained in the gas phase at low temperatures in a free jet expansion. The CRESU apparatus (acronym for the French translation of reaction kinetics at supersonic conditions) uses a Laval nozzle expansion to obtain temperatures of 8-160 K. The merged ion beam and molecular beam apparatus are described above. These teclmiques have provided important infonnation on reactions pertinent to interstellar-cloud chemistry as well as the temperature dependence of reactions in a regime not otherwise accessible. In particular, infonnation on ion-molecule collision rates as a ftmction of temperature has proven valuable m refining theoretical calculations. [Pg.813]

Rendulic K D, Anger G and Winkler A 1989 Wide-range nozzle beam adsorption data for the systems H2/Ni and H2/Pd (100) Surf.Sci. 208 404... [Pg.918]

Figure Bl.4.4. (a) An outline of the Harvard University eleetrie diseharge siipersonie nozzle/Foiirier transfonn mierowave speetroineter. (b) The rotational states of HCj N observed with this apparatus [31],... Figure Bl.4.4. (a) An outline of the Harvard University eleetrie diseharge siipersonie nozzle/Foiirier transfonn mierowave speetroineter. (b) The rotational states of HCj N observed with this apparatus [31],...
Figure Bl.7.3. Schematic diagram of a molecular beam generator nozzle (1) expansion region (2) skinmrer (3) and molecular beam (4). Figure Bl.7.3. Schematic diagram of a molecular beam generator nozzle (1) expansion region (2) skinmrer (3) and molecular beam (4).
Valentin J J, Coggiola M J and Lee Y T 1977 Supersonic atomic and molecular halogen nozzle beam source Rev. Sc/. Instrum 48 58-63... [Pg.2086]

Sinha M P, Schulz A and Zare R N 1973 Internal state distribution of alkali dimers in supersonic nozzle beams J. Chem. Phys. 58 549-56... [Pg.2149]

Carbon disulphide is an excellent solvent for fats, oils, rubber, sulphur, bromine and iodine, and is used industrially as a solvent for extraction. It is also used in the production of viscose silk, when added to wood cellulose impregnated with sodium hydroxide solution, a viscous solution of cellulose xanthate is formed, and this can be extruded through a fine nozzle into acid, which decomposes the xanthate to give a glossy thread of cellulose. [Pg.202]


See other pages where Nozzles is mentioned: [Pg.195]    [Pg.369]    [Pg.247]    [Pg.36]    [Pg.36]    [Pg.37]    [Pg.39]    [Pg.58]    [Pg.59]    [Pg.600]    [Pg.799]    [Pg.803]    [Pg.804]    [Pg.804]    [Pg.1062]    [Pg.1244]    [Pg.1256]    [Pg.1823]    [Pg.2086]    [Pg.2389]    [Pg.2439]    [Pg.2440]    [Pg.3030]   
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Adiabatic Frictionless Nozzle Flow

Adiabatic Nozzle Expansion Spectroscopy

Adiabatic nozzle

Aerosols nozzle atomization

Agitation nozzles, jackets

Allowable nozzle loading

Atomiser nozzle

Atomization of spent acid nozzles

Atomizer nozzle

Atomizing nozzle performance

Atomizing nozzles

Atomizing nozzles, structure

Basic features nozzle

Beam sources nozzle

Bit nozzle

Blast nozzle

Bluebell Nozzle Application

Bottom-head nozzle arrangement

Burners nozzles

Calculation for choked nozzle flow

Centrifugal nozzle

Centrifugal pumps nozzle size

Centrifuges nozzle clarifiers

Centrifuges nozzle separator

Centrifuges nozzle solid-bowl

Choked nozzle

Clogging of the nozzles

Cluster nozzle

Combination nozzle for Electrolux cleaner

Comparison nozzles

Compressible flow convergent/divergent nozzles

Compressible flow through nozzles and constrictions

Compressible flows ideal nozzle

Compressors Nozzle Orientations

Control rod drive mechanism nozzles

Convergent nozzle

Convergent-divergent nozzle

Converging nozzle

Converging-diverging nozzle

Critical nozzles

De Laval nozzle

Delavan nozzle

Delivery nozzle

Delivery nozzle design

Dependence of the polytropic exponent on nozzle efficiency

Deposition nozzle

Directional feed nozzles

Disc stack centrifuge nozzle separator

Discharge nozzle

Distance between nozzles, influence

Divergent nozzle

Draw nozzle

Draw-off nozzle

Draw-off nozzle hydraulics

Drums nozzle locations

Dual-fluid nozzle

Economizer nozzles

Eddy pressure nozzles

Edge nozzles

Effect of Nozzle Configuration on PDE Performance

Effect of Nozzle Expansion

Effect of Pressure Drop and Nozzle Size

Elbow nozzles

Energy dissipation in a nozzle

Energy nozzle array

Exchange nozzles

Exchangers nozzle orientation

Expansion nozzle

Extension nozzle

Extrusion techniques Nozzles

Fan-jet nozzles

Fast Formation at Nozzles

Feed nozzles

Fill time nozzle

Flapper/nozzle system

Flow in nozzles

Flow rate jets, orifices, nozzles

Flow through Frictionless Nozzle

Flow through a converging nozzle

Flow through ideal nozzles

Flowmeters, differential pressure flow nozzles

Fluid isentropic nozzle flow

Foam nozzle

Fourier-transform microwave spectroscopy, pulsed-nozzle

Full nozzle

Full-cone spray nozzles

Funnel shaped nozzle as ejectors

Gas outlet nozzle velocity

Gas outlet nozzles

Gas-jet nozzles

HR nozzles

Heat exchanger nozzles

Heating nozzle

Heavy liquid outlet nozzle

High nozzles

High pressure nozzle

High-pressure Homogenization Nozzles

Hole nozzle arrays

Hollow cone nozzle

Hotrunner Nozzles

Hydraulic (Pressure) Nozzles

Hydraulic nozzles

Ideal nozzles

Impinging nozzle fields

Impinging single nozzle

Improved Performance and Life of Gasifier Nozzles

In a nozzle

Individual nozzles, heat transfer

Injection molding machine conventional nozzle

Injection molding machine nozzle

Injection molding nozzles

Injection nozzle

Inkjet nozzle applications

Inlet nozzle horizontal separator

Inlet nozzle mist eliminator

Inlet nozzle velocity

Internal mixing nozzles

Interpreting the experimental results for convergent-divergent nozzles

Jet nozzle

Jones Nozzle in Detonation

Large-diameter nozzle openings

Laskin-type nozzle generator

Laval nozzle

Light liquid outlet nozzle

Liquid distributor spray nozzle

Liquid nozzle diameter

Liquid-draw nozzles

MEMS-Nozzle

Main nozzle

Maintaining Nozzle Efficiency

Maximum allowable nozzle loads

Metal nozzle diameter

Mixing nozzle

Modeling of Gas Flows in Near-Nozzle Region

Modification to the nozzle

Modular units for moulds with HR nozzles

Mold-gate nozzle

Motive nozzle

Mould Nozzle

Multi-gating nozzle

Multi-hole nozzle

Multi-nozzle applicators

Multi-nozzles

Multiple nozzle feed injection

Near-nozzle region

Needle shut-off nozzles

Noise nozzle

Nozzle Atomization

Nozzle Drool

Nozzle Elevation and Orientation

Nozzle Locations

Nozzle Mounting

Nozzle Orientation

Nozzle abrasion resistance

Nozzle actuator

Nozzle adjustment

Nozzle amplifer

Nozzle angle

Nozzle arrangements, heat transfer

Nozzle arrays

Nozzle beam techniques

Nozzle block

Nozzle capillary

Nozzle cavitation

Nozzle central

Nozzle clogging

Nozzle cold runners

Nozzle control

Nozzle convergent part

Nozzle cracking

Nozzle cylindrical bodies

Nozzle damping

Nozzle design

Nozzle design influence

Nozzle diameter

Nozzle discharge centrifuge

Nozzle discharge coefficient

Nozzle discharge machine

Nozzle discharge velocity

Nozzle distance, relative

Nozzle divergent part

Nozzle drying principle

Nozzle during expansion

Nozzle efficiency

Nozzle efficiency limitations

Nozzle ejector

Nozzle exit

Nozzle exit area

Nozzle exit loss

Nozzle exit loss example

Nozzle expansion process

Nozzle expansion ratio

Nozzle external restrictions

Nozzle fields

Nozzle flow coefficient

Nozzle flow model

Nozzle flow with finite-rate chemistry

Nozzle fluid flow, pressure drop

Nozzle geometry

Nozzle geometry parameters

Nozzle guide vane rows

Nozzle heat transfer

Nozzle hole channels

Nozzle hole shapes

Nozzle hydraulic needle

Nozzle icing

Nozzle impact)

Nozzle inlet

Nozzle installation

Nozzle jet expansion

Nozzle leakage

Nozzle limitations

Nozzle loop

Nozzle losses

Nozzle maintenance

Nozzle mass flow

Nozzle mixers

Nozzle needle

Nozzle needle sealing

Nozzle optimization

Nozzle orifice diameter

Nozzle penetrations

Nozzle perforated plates

Nozzle plate

Nozzle pneumatic

Nozzle port size

Nozzle position

Nozzle pressure control

Nozzle pressure drop

Nozzle pressure recovery

Nozzle process (

Nozzle propellant

Nozzle ratio

Nozzle reactors

Nozzle reinforcement

Nozzle ring

Nozzle separator

Nozzle sizing

Nozzle source, supersonic

Nozzle specific energy consumption

Nozzle staggered arrangement

Nozzle suction

Nozzle system

Nozzle testing

Nozzle throat

Nozzle throat area

Nozzle vacuum

Nozzle velocity

Nozzle velocity maximum

Nozzle, angled

Nozzle, common types

Nozzle, flow

Nozzle, nozzles

Nozzle, nozzles

Nozzle, pressure-atomizing

Nozzle, rocketry

Nozzle-based

Nozzle-based function

Nozzle-based techniques

Nozzle-choking

Nozzle-collector distance

Nozzle-skimmer dissociation

Nozzle-skimmer system

Nozzle-surface distance, influence

Nozzles and Venturi

Nozzles and diffusers

Nozzles and spargers

Nozzles classification

Nozzles coil heater

Nozzles conical-cylindrical

Nozzles converging/diverging, flow

Nozzles deflector

Nozzles drops

Nozzles flow measurement

Nozzles flow rate adjustment

Nozzles fluid dynamics

Nozzles hydropneumatic

Nozzles injection molds

Nozzles listing locations

Nozzles output

Nozzles position, influence

Nozzles pressure drop, heat exchanger

Nozzles pressure vessels

Nozzles quench

Nozzles selection

Nozzles standard

Nozzles surfactants

Nozzles thermodynamics

Nozzles through

Nozzles twin-fluid

Nozzles types

Nozzles variable cone

Nozzles, Inlets and Outlets

Nozzles, characteristics

Nozzles, inspection

Nozzles, jacketed vessels

Nozzles, pneumatic spray

Nozzles, spray drying

Nozzles, swirl-spray pressure

Nozzles, weights

Off Nozzle Elevation

Open nozzles

Opposed-nozzle

Orifices and Nozzles

Outlet nozzles

Outlet velocity and mass flow in a convergent-only nozzle

Over/Under/Perfectly Expanded Nozzle Flow

Overexpanding nozzle

Oxygen injection nozzle

Packing spray nozzle distributor

Perforated nozzle arrays

Pintled nozzle

Port Shrouding or Nozzle Sizing

Powder application nozzles

Powder nozzle

Pressure converging/diverging nozzles

Pressure drop through nozzles

Pressure nozzle

Pressure nozzle atomizers

Print heads nozzles

Printer nozzle

Procedure 2-12 Nozzle Reinforcement

Procedure 3-9 Through Nozzles

Processing, thermoplastics nozzle

Pulsating nozzle

Pulsed nozzle

Push nozzle

Reactor vessels nozzle cracking

Recovery of kinetic energy at the entry to a fixed blade (nozzle)

Rinse nozzles

Rocket nozzle

Safety relief valve open nozzle

Seeded supersonic nozzle source

Semi nozzle

Separation equipment nozzle separator

Separation nozzle

Separation nozzle process

Separation nozzle process equipment

Separation nozzle process pressures

Separation nozzle process principle

Separation nozzle process separative capacity

Shell and header nozzles

Shell nozzles

Shell-side nozzle pressure drop

Shrouded blending nozzle

Shut-off nozzle leaves vestige

Shut-off nozzles

Silicon nitride blast nozzle

Single Fixed Nozzle

Single Nozzle, Spindle Operated

Single fluid nozzle

Single nozzle head

Single nozzles

Single-fluid pressurized nozzles

Sintered nozzles

Slit-shaped nozzle

Slot nozzles

Slow Formation at Nozzles

Sonic nozzle

Splash plate nozzle

Spout nozzle velocity

Spray dryer nozzles used

Spray head with separate nozzles for water and release agent

Spray nozzle particle size

Spray nozzle patterns

Spray nozzles

Spray nozzles droplet size from

Spray nozzles flow rate

Spray nozzles for

Spraying nozzle

Steady-state flow in a nozzle

Steady-state flow through a nozzle with constant specific volume

Steam nozzle

Steam nozzle, turbine

Suction and discharge nozzles

Sulfur nozzles

Supercritical high-pressure nozzle extraction

Supersonic Micro-nozzles

Supersonic Nozzle (Anderson, Andres, Fenn)

Supersonic nozzle

Supersonic nozzle flow

Swirl nozzles

Tangential inlet nozzle

Tangential nozzles

Tank truck nozzles

Temperature nozzle

The continuous sonic nozzle procedure

The convergent-divergent nozzle

The inlet nozzle

The nozzle

Thermocompressors Fixed nozzle

Three-stream nozzle

Tip nozzles

Torpedo nozzle

Total entropy change of an air flow in a nozzle

Tundish nozzles

Turbine nozzles

Tuyere = nozzle

Two-fluid nozzles

Ultrasonic nozzles

Underexpanding nozzle

Uranium nozzle separation process

Valve gate nozzle

Vapor flow nozzle exit loss

Vapor return nozzle

Variable nozzles

Venturi Tubes and Nozzles

Venturi flow nozzles

Venturi nozzle

Vessel nozzles

Welding rocket nozzles

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